Fizzy Bubbly Science
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Place Your Order Online: Tel: 01633 274757 Fax 01633 270 398 Email: [email protected]
JANUARY 2015 BRAYS SWEETS (NEWPORT) LIMITED, 2-6 CONWAY ROAD, NEWPORT. NP19 8PA. Page 1 of 4 PLACE YOUR ORDER ONLINE: www.thewelshsweetshop.co.uk TEL: 01633 274757 FAX 01633 270 398 EMAIL: [email protected] Minimum Order: 1 case (6 jars/bags/outers). Can be different varieties. Orders in multiples of 6. DELIVERY £5.95 for orders under £175.00 BRAYS TRADITIONALLY HANDMADE SWEETS BRAYS ORIGINAL HANDMADE SWEETS 3kg 3kg 3kg 3kg Jar Bag UNWRAPPED LINES - Jar Bag UNWRAPPED LINES Old Fashioned Drop Roller Qty Qty Qty Qty Qty Qty Aniseed Balls - Red Sugared Aniseed Balls -Black Sugared Aniseed Twist Apple & Custard Apple & Custard Blackcurrant & Liquorice Humbugs Lrge) Sour Apple Cubes Brown & White Humbugs (Large) Blackberries & Raspberries Buckin Bronchos Blackberry & Apple Kut a Kof Brandy & Cream Drops JAZZ BALLS NEW NEW NEW Brandy Balls Menthol & Eucalytus Bronchial Tablets Nose & Throat Bulls Eyes Pear Drops - Large Caramel & Custard Pear Drops - Small Cinnamon Balls Rhubarb & Custard Clove Balls Soor Plooms Dads Herbal Tablets Strawberry & Cream Fizzy Fish Super Sours Fruit Rock Swansea Mixture Humbugs - Black & White Tangerine Balls NEW NEW Humbugs - Brown & White Winter Mixture Kola Bricks or Cubes Winter Nips Kola Fizz Balls ORIGINAL HANDMADE CRISPETS NEW Lemonade Fizz Balls Original, Orange, Mint, and Chilli varieties Liquorice Satins **FACTORY MISHAPS** 3kg BAG Mini Fizz Balls CRYSTALS/KALI Mini Sour Balls 3kg Jar 3kg Bag Orange & Lemon Slices Apple Peaches & Cream Blackcurrant Pear Drops - Large Blue (Raspberry Flavour) Pear -
Just Treats Solar Gift Hamper: Jam Packed with the Best Ever Retro Name of Hamper Sweets
ASIN B009YGIKHQ Model No (SKU) 555-g100-mega-retro Retro Sweets Hamper: Just Treats Solar Gift Hamper: Jam Packed with the Best Ever Retro Name of Hamper Sweets Chocolate Buttons Unit 650 Glenfield Park 2 Blakewater Road Manufacturer Name and Address Blackburn Lancashire BB1 5QH Suitable for vegetarians N Suitable for vegans N Suitable for nut allergy sufferers N Suitable for gluten allergy sufferers N Suitable to wheat allergy sufferers N Suitable for egg allergy sufferers N Suitable for dairy allergy sufferers N Suitable for soya allergy sufferers N Free from alcohol Y Free from flavourings N Free from artificial colours N List contents included in Hamper, i.e.: 1. Black Jack Chews 2. Fruit Salad Chews 3. Anglo Bubbly 4. Love Heart Mini Rolls 5. Parma Violets 6. Fizzers Originals 7. Double Lollies Original 8. Drumsticks Giant Products 9. Candy Necklaces 10. Bubblegum Strips 11. Candy Lipstick 12. Rainbow Drops Large 13. Candy Whistle 14. Fizz Wizz 15. Double Dip 16. Wham Chew Bar 17. Refreshers Chew Bar 18. Flump 19. Candy Sticks Box 20. Sherbet Fountain 21. White Mice 22. White Chocolate Jazzles 23. Cadbury Dairy Milk Bar 24. Curly Wurly 25. Drumsticks Chew Bar 26. Flying Saucers 27. Sherbet Lemon Lollipop 28. Fini Jelly Beans 29. Fini Fizzy Belt Roller 30. Chocolate Jazzles 31. Tooty Frootie 32. Jelly Tots 33. Chewits Please note, the below individual FIR sheets contain individual product information and ingredients. Product 1 Black Jack Chews Description Classic recipe. Natural colours and flavours Ingredients -Should appear as they -
We've Been Making Ice Cream Since 1926 and While
3 GALLON ONLY FLAVOR LINEUP NEW FLAVORS CRUNCHY MUNCHY COFFEE LOVER’S DREAM PEANUT BUTTER Coffee flavored ice cream with rich chocolate chips Chocolate fudge peanuts and peanut butter swirl in vanilla ice cream FUDGE MINT BROWNIE NON-DAIRY/VEGAN FLAVORS Dark chocolate ice cream with a crème de menthe swirl and brownie pieces NON-DAIRY BIRTHDAY CAKE Birthday cake flavored non-dairy ice cream with festive sprinkles RAINBOW SHERBET Raspberry, lime and orange sherbet NON-DAIRY CHOCOLATE Rich and creamy, non-dairy chocolate ice cream RASPBERRY DARK CHOCOLATE CHIP Black raspberry ice cream with chunks of dark chocolate fudge RASPBERRY SORBET Sweet and flavorful raspberry non-dairy sorbet SLEEPING BEAR DUNES BEAR HUG® Thick caramel and chocolate covered cashews in our original chocolate ice cream CLASSIC FLAVORS BROWNIE BATTER S’MORES Brownie batter ice cream with brownie pieces Marshmallow ice cream with a thick fudge ribbon and a caramel swirl and graham cracker pieces BUBBLEGUM STRAWBERRY Bubblegum ice cream with sweet Strawberry ice cream mixed with bubblegum pieces sweet strawberries WHITE CHOCOLATE CAKE BATTER PEPPERMINT COOKIE Cake batter flavored ice cream blended with Peppermint ice cream blended with peppermint yellow cake pieces swirled with chocolate icing candy bark and a fudge cookie ribbon CANDY PLAY DOUGH WINDMILL COOKIE BUTTER Blue Moon ice cream sprinkled with blue and pink Cookie butter ice cream blended cookie dough pieces with Speculoos cookie pieces CARAMEL TURTLE CHEESECAKE Caramel filled chocolate turtles, pralines and buttered caramel swirled in cheesecake ice cream MARKETING SUPPORT Let everyone know how sweet your shop is with our CHOCOLATE MONSTER variety of point of sale items. -
Observation of Elliptically Polarized Light from Total Internal Reflection in Bubbles
Observation of elliptically polarized light from total internal reflection in bubbles Item Type Article Authors Miller, Sawyer; Ding, Yitian; Jiang, Linan; Tu, Xingzhou; Pau, Stanley Citation Miller, S., Ding, Y., Jiang, L. et al. Observation of elliptically polarized light from total internal reflection in bubbles. Sci Rep 10, 8725 (2020). https://doi.org/10.1038/s41598-020-65410-5 DOI 10.1038/s41598-020-65410-5 Publisher NATURE PUBLISHING GROUP Journal SCIENTIFIC REPORTS Rights Copyright © The Author(s) 2020. Open Access This article is licensed under a Creative Commons Attribution 4.0 International License. Download date 29/09/2021 02:08:57 Item License https://creativecommons.org/licenses/by/4.0/ Version Final published version Link to Item http://hdl.handle.net/10150/641865 www.nature.com/scientificreports OPEN Observation of elliptically polarized light from total internal refection in bubbles Sawyer Miller1,2 ✉ , Yitian Ding1,2, Linan Jiang1, Xingzhou Tu1 & Stanley Pau1 ✉ Bubbles are ubiquitous in the natural environment, where diferent substances and phases of the same substance forms globules due to diferences in pressure and surface tension. Total internal refection occurs at the interface of a bubble, where light travels from the higher refractive index material outside a bubble to the lower index material inside a bubble at appropriate angles of incidence, which can lead to a phase shift in the refected light. Linearly polarized skylight can be converted to elliptically polarized light with efciency up to 53% by single scattering from the water-air interface. Total internal refection from air bubble in water is one of the few sources of elliptical polarization in the natural world. -
A Monte Carlo Ray Tracing Study of Polarized Light Propagation in Liquid Foams
ARTICLE IN PRESS Journal of Quantitative Spectroscopy & Radiative Transfer 104 (2007) 277–287 www.elsevier.com/locate/jqsrt A Monte Carlo ray tracing study of polarized light propagation in liquid foams J.N. Swamya,Ã, Czarena Crofchecka, M. Pinar Mengu¨c- b,ÃÃ aDepartment of Biosystems and Agricultural Engineering, 128 C E Barnhart Building, University of Kentucky, Lexington, KY 40546, USA bDepartment of Mechanical Engineering, 269 Ralph G. Anderson Building, University of Kentucky, Lexington, KY 40506, USA Received 10 July 2006; accepted 28 July 2006 Abstract A Monte Carlo ray tracing scheme is used to investigate the propagation of an incident collimated beam of polarized light in liquid foams. Cellular structures like foam are expected to change the polarization characteristics due to multiple scattering events, where such changes can be used to monitor foam dynamics. A statistical model utilizing some of the recent developments in foam physics is coupled with a vector Monte Carlo scheme to compute the depolarization ratios via Stokes–Mueller formalism. For the simulations, the incident Stokes vector corresponding to horizontal linear polarization and right circular polarization are considered. It is observed that bubble size and the polydispersity parameter have a significant effect on the depolarization ratios. This is partially owing to the number of total internal reflection events in the Plateau borders. The results are discussed in terms of applicability of polarized light as a diagnostic tool for monitoring foams. r 2006 Elsevier Ltd. All rights reserved. Keywords: Polarized light scattering; Liquid foams; Bubble size; Polydispersity; Foam characterization; Foam diagnostics; Cellular structures 1. Introduction Liquid foams are random packing of bubbles in a small amount of immiscible liquid [1] and can be found in a wide variety of applications. -
The Synergistic Effect of Focused Ultrasound and Biophotonics to Overcome the Barrier of Light Transmittance in Biological Tissue
Photodiagnosis and Photodynamic Therapy 33 (2021) 102173 Contents lists available at ScienceDirect Photodiagnosis and Photodynamic Therapy journal homepage: www.elsevier.com/locate/pdpdt The synergistic effect of focused ultrasound and biophotonics to overcome the barrier of light transmittance in biological tissue Jaehyuk Kim a,b, Jaewoo Shin c, Chanho Kong c, Sung-Ho Lee a, Won Seok Chang c, Seung Hee Han a,d,* a Molecular Imaging, Princess Margaret Cancer Centre, Toronto, ON, Canada b Health and Medical Equipment, Samsung Electronics Co. Ltd., Suwon, Republic of Korea c Department of Neurosurgery, Brain Research Institute, Yonsei University College of Medicine, Seoul, Republic of Korea d Department of Medical Biophysics, University of Toronto, Toronto, ON, Canada ARTICLE INFO ABSTRACT Keywords: Optical technology is a tool to diagnose and treat human diseases. Shallow penetration depth caused by the high Light transmission enhancement optical scattering nature of biological tissues is a significantobstacle to utilizing light in the biomedical field. In Focused Ultrasound this paper, light transmission enhancement in the rat brain induced by focused ultrasound (FUS) was observed Air bubble and the cause of observed enhancement was analyzed. Both air bubbles and mechanical deformation generated Mechanical deformation by FUS were cited as the cause. The Monte Carlo simulation was performed to investigate effects on transmission Rat brain by air bubbles and finiteelement method was also used to describe mechanical deformation induced by motions of acoustic particles. As a result, it was found that the mechanical deformation was more suitable to describe the transmission change according to the FUS pulse observed in the experiment. 1. -
Ocean Storage
277 6 Ocean storage Coordinating Lead Authors Ken Caldeira (United States), Makoto Akai (Japan) Lead Authors Peter Brewer (United States), Baixin Chen (China), Peter Haugan (Norway), Toru Iwama (Japan), Paul Johnston (United Kingdom), Haroon Kheshgi (United States), Qingquan Li (China), Takashi Ohsumi (Japan), Hans Pörtner (Germany), Chris Sabine (United States), Yoshihisa Shirayama (Japan), Jolyon Thomson (United Kingdom) Contributing Authors Jim Barry (United States), Lara Hansen (United States) Review Editors Brad De Young (Canada), Fortunat Joos (Switzerland) 278 IPCC Special Report on Carbon dioxide Capture and Storage Contents EXECUTIVE SUMMARY 279 6.7 Environmental impacts, risks, and risk management 298 6.1 Introduction and background 279 6.7.1 Introduction to biological impacts and risk 298 6.1.1 Intentional storage of CO2 in the ocean 279 6.7.2 Physiological effects of CO2 301 6.1.2 Relevant background in physical and chemical 6.7.3 From physiological mechanisms to ecosystems 305 oceanography 281 6.7.4 Biological consequences for water column release scenarios 306 6.2 Approaches to release CO2 into the ocean 282 6.7.5 Biological consequences associated with CO2 6.2.1 Approaches to releasing CO2 that has been captured, lakes 307 compressed, and transported into the ocean 282 6.7.6 Contaminants in CO2 streams 307 6.2.2 CO2 storage by dissolution of carbonate minerals 290 6.7.7 Risk management 307 6.2.3 Other ocean storage approaches 291 6.7.8 Social aspects; public and stakeholder perception 307 6.3 Capacity and fractions retained -
Kosher Nosh Guide Summer 2020
k Kosher Nosh Guide Summer 2020 For the latest information check www.isitkosher.uk CONTENTS 5 USING THE PRODUCT LISTINGS 5 EXPLANATION OF KASHRUT SYMBOLS 5 PROBLEMATIC E NUMBERS 6 BISCUITS 6 BREAD 7 CHOCOLATE & SWEET SPREADS 7 CONFECTIONERY 18 CRACKERS, RICE & CORN CAKES 18 CRISPS & SNACKS 20 DESSERTS 21 ENERGY & PROTEIN SNACKS 22 ENERGY DRINKS 23 FRUIT SNACKS 24 HOT CHOCOLATE & MALTED DRINKS 24 ICE CREAM CONES & WAFERS 25 ICE CREAMS, LOLLIES & SORBET 29 MILK SHAKES & MIXES 30 NUTS & SEEDS 31 PEANUT BUTTER & MARMITE 31 POPCORN 31 SNACK BARS 34 SOFT DRINKS 42 SUGAR FREE CONFECTIONERY 43 SYRUPS & TOPPINGS 43 YOGHURT DRINKS 44 YOGHURTS & DAIRY DESSERTS The information in this guide is only applicable to products made for the UK market. All details are correct at the time of going to press but are subject to change. For the latest information check www.isitkosher.uk. Sign up for email alerts and updates on www.kosher.org.uk or join Facebook KLBD Kosher Direct. No assumptions should be made about the kosher status of products not listed, even if others in the range are approved or certified. It is preferable, whenever possible, to buy products made under Rabbinical supervision. WARNING: The designation ‘Parev’ does not guarantee that a product is suitable for those with dairy or lactose intolerance. WARNING: The ‘Nut Free’ symbol is displayed next to a product based on information from manufacturers. The KLBD takes no responsibility for this designation. You are advised to check the allergen information on each product. k GUESS WHAT'S IN YOUR FOOD k USING THE PRODUCT LISTINGS Hi Noshers! PRODUCTS WHICH ARE KLBD CERTIFIED Even in these difficult times, and perhaps now more than ever, Like many kashrut authorities around the world, the KLBD uses the American we need our Nosh! kosher logo system. -
Bubble-Mania the Bubbling Clues to Magma Viscosity and Eruptions
Earthlearningidea - http://www.earthlearningidea.com/ Bubble-mania The bubbling clues to magma viscosity and eruptions Pour a viscous liquid (eg. honey, syrup) into Honey and a one transparent container and a pale-coloured soft drink – ready for soft drink (eg. ginger beer) or just coloured bubble-mania. water into another. Put both of these onto a plastic tray or table. Ask your pupils to use a drinking straw to blow bubbles into the soft Apparatus photo: drink, then ask them to ‘use the same blow’ to Chris King blow bubbles in the more viscous liquid. When nothing happens, ask them to blow harder until the liquid ‘erupts’. Ask: • How were the ‘eruptions’ different? • How were the bubbles different? • What caused the differences? • Some volcanoes have magmas that are Magma fountain ‘runny’ (like the soft drink) and some have within the crater much more viscous magmas (like the other of Volcan liquid) – how might these volcanoes erupt Villarrica, Pucón, differently? Chile. • Which sort of eruption would you most like to This file is see – one with low viscosity (runny) magma, licensed by Jonathan Lewis like the soft drink, or one with high viscosity under the Creative (thick) magma like the viscous liquid? Commons Attribution-Share Alike 2.0 Generic license. ……………………………………………………………………………………………………………………………… The back up Title: Bubble-mania • How were the ‘eruptions’ different? It was easy to blow bubbles into the soft drink Subtitle: The bubbling clues to magma viscosity and it ‘fizzed’ a bit, but the bubbles soon and eruptions disappeared; it was much harder to blow bubbles into the viscous liquid and they grew Topic: A simple test of the viscosity of two similar- large and sometimes burst out of the container looking liquids, linked to volcanic eruption style. -
The Life of a Surface Bubble
molecules Review The Life of a Surface Bubble Jonas Miguet 1,†, Florence Rouyer 2,† and Emmanuelle Rio 3,*,† 1 TIPS C.P.165/67, Université Libre de Bruxelles, Av. F. Roosevelt 50, 1050 Brussels, Belgium; [email protected] 2 Laboratoire Navier, Université Gustave Eiffel, Ecole des Ponts, CNRS, 77454 Marne-la-Vallée, France; fl[email protected] 3 Laboratoire de Physique des Solides, CNRS, Université Paris-Saclay, 91405 Orsay, France * Correspondence: [email protected]; Tel.: +33-1691-569-60 † These authors contributed equally to this work. Abstract: Surface bubbles are present in many industrial processes and in nature, as well as in carbon- ated beverages. They have motivated many theoretical, numerical and experimental works. This paper presents the current knowledge on the physics of surface bubbles lifetime and shows the diversity of mechanisms at play that depend on the properties of the bath, the interfaces and the ambient air. In particular, we explore the role of drainage and evaporation on film thinning. We highlight the existence of two different scenarios depending on whether the cap film ruptures at large or small thickness compared to the thickness at which van der Waals interaction come in to play. Keywords: bubble; film; drainage; evaporation; lifetime 1. Introduction Bubbles have attracted much attention in the past for several reasons. First, their ephemeral Citation: Miguet, J.; Rouyer, F.; nature commonly awakes children’s interest and amusement. Their visual appeal has raised Rio, E. The Life of a Surface Bubble. interest in painting [1], in graphism [2] or in living art. -
Study on Bubble Cavitation in Liquids for Bubbles Arranged in a Columnar Bubble Group
applied sciences Article Study on Bubble Cavitation in Liquids for Bubbles Arranged in a Columnar Bubble Group Peng-li Zhang 1,2 and Shu-yu Lin 1,* 1 Institute of Applied Acoustics, Shaanxi Normal University, Xi’an 710062, China; [email protected] 2 College of Science, Xi’an University of Science and Technology, Xi’an 710054, China * Correspondence: [email protected]; Tel.: +86-181-9273-7031 Received: 24 October 2019; Accepted: 29 November 2019; Published: 4 December 2019 Featured Application: This work will provide a reference for further simulations and help to promote the theoretical study of ultrasonic cavitation bubbles. Abstract: In liquids, bubbles usually exist in the form of bubble groups. Due to their interaction with other bubbles, the resonance frequency of bubbles decreases. In this paper, the resonance frequency of bubbles in a columnar bubble group is obtained by linear simplification of the bubbles’ dynamic equation. The correction coefficient between the resonance frequency of the bubbles in the columnar bubble group and the Minnaert frequency of a single bubble is given. The results show that the resonance frequency of bubbles in the bubble group is affected by many parameters such as the initial radius of bubbles, the number of bubbles in the bubble group, and the distance between bubbles. The initial radius of the bubbles and the distance between bubbles are found to have more significant influence on the resonance frequency of the bubbles. When the distance between bubbles increases to 20 times the bubbles’ initial radius, the coupling effect between bubbles can be ignored, and after that the bubbles’ resonance frequency in the bubble group tends to the resonance frequency of a single bubble’s resonance frequency. -
Sweetie Science
With support from Oxfordshire County Council, Science Oxford is pleased to present; Sweetie Science The Science of Sweeties STEM Club Resource Pack Introduction: Have you ever wondered why sweets fizz, which type of liquorice is the strongest or how far you can stretch a wiggly worm? Through a series of short experiments you can demonstrate and test scientific theory using sweets! In this investigation you will be studying the properties of different sweets including; • The fizziness of sherbet • The structural abilities of marshmallows • The strength of liquorice • The melting temperature of chocolate • The stretchiness of jelly sweets • Different sweets abilities to float Suggested Timetable: Week 1 - Fizzing fun Make your own fizzy sherbet Week 2 - Marshmallow towers A construction challenge Week 3 - Lovely Liquorice Test the strength of liquorice sweets Week 4 - Melting Chocolate Investigate the melting temperatures of different chocolates Week 5 – Worms Test the stretchiness of gummy worms Week 6 - Floating & Sinking Sweets Investigate the density and buoyancy of different sweets Week 1: Fizzing Fun Equipment needed: Icing Sugar Bicarbonate of Soda Citric Acid Plastic spoons Small plates or dishes Flavourings (optional) Food colouring (optional) Weighing scales What to do: Sherbet is made from Sugar, Citric acid and Bicarbonate of Soda. Taste the three ingredients one at a time, which one tastes fizzy? Your challenge is to design the ‘best’ sherbet dip by experimenting with different quantities and combinations of each ingredient. Things to think about: • Can you work out what each ingredient does? • Which powder was the fizziest? • How could you measure this? • What flavours could you add to your sherbet? Science Note: All the ingredients need to be dry when you start experimenting.